VICKERS比例阀技术使用操作细节资料

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vickers电磁换向阀技术参数

Vickers电磁换向阀技术参数概述Vickers电磁换向阀是一种常用于液压系统中的控制元件，用于控制液压流体的流向。

它由电磁线圈、阀芯和阀座组成，通过控制电磁线圈的通断来控制阀芯的运动，从而实现液压流体的换向操作。

本文将详细介绍Vickers电磁换向阀的技术参数，包括工作压力、流量、温度范围、电磁线圈参数等。

技术参数工作压力Vickers电磁换向阀的工作压力范围通常为0-350 bar。

在实际应用中，根据具体的液压系统要求，可以选择不同工作压力范围的电磁换向阀。

流量Vickers电磁换向阀的流量范围通常为0-1000 L/min。

流量是指单位时间内通过阀芯的液压流体的体积。

在选择电磁换向阀时，需要根据液压系统的流量需求来确定合适的电磁换向阀流量。

温度范围Vickers电磁换向阀的温度范围通常为-40°C至+120°C。

温度是指电磁换向阀所能耐受的环境温度范围。

在实际应用中，需要根据液压系统的工作环境温度来选择合适的电磁换向阀。

电磁线圈参数Vickers电磁换向阀的电磁线圈参数包括电压、功率和连接方式。

•电压：通常有12V、24V、110V和220V等选项。

根据实际应用需求和电源供应情况，选择合适的电压。

•功率：通常根据电磁线圈的电压和电流来计算，单位为瓦特（W）。

•连接方式：通常有螺纹连接和插接连接两种方式。

螺纹连接适用于需要固定安装的场合，插接连接适用于需要频繁更换的场合。

阀芯类型Vickers电磁换向阀的阀芯类型有多种选择，常见的有直动式和间接式。

•直动式阀芯：阀芯直接由电磁线圈控制运动，结构简单，响应速度快。

•间接式阀芯：阀芯通过驱动杆与电磁线圈相连，结构复杂，但具有较大的工作力和行程。

在选择阀芯类型时，需要根据具体的液压系统要求和应用场景来确定。

阀座材料Vickers电磁换向阀的阀座材料通常选用耐磨损、耐腐蚀的材料，如铜合金或不锈钢。

阀座材料的选择需要考虑液压流体的性质和工作环境的要求。

VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52技术资料

VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52技术资料VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52安装注意：1、安装时应注意阀体上箭头应与介质流向一致。

不可装在有直接滴水或溅水的地方。

电磁阀应垂直向上安装；2、电磁阀应保证在电源电压为额定电压的15%-10%波动范围内正常工作；3、电磁阀安装后，管道中不得有反向压差。

并需通电数次，使之适温后方可正式投入使用；4、电磁阀安装前应彻底清洗管道。

通入的介质应无杂质。

阀前装过滤器；5、当电磁阀发生故障或清洗时，为保证系统继续运行，应安装旁路装置。

VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52使用：VICKERS电磁阀出来的先导油控制主换向阀阀芯的移动，使工作泵的来油进入动臂油缸实现动臂上升。

比例先导减压阀的输出压力越大，控制主换向阀阀芯的位移越大，主换向阀通过的流量越大，动臂上升的速度越快。

当操作手柄拉至极限位置时，手柄中的限位电磁铁通电，手柄在极限位置被吸合。

动臂以最大的速度上升，当升至动臂上位限位开关所限定的位置时，操作手柄限位电磁铁断电，手柄自动恢复到中位，动臂就可保持在所限定的位置。

在动臂上升的过程中，若需要动臂在某一位置停留，则需将操作手柄退回中位。

VICKERS电磁阀主要用在电气液压伺服系统中作为执行元件(见液压伺服系统)。

在伺服系统中，液压执行机构同电气及气动执行机构相比，具有快速性好、单位重量输出功率大、传动平稳、抗干扰能力强等特点。

另一方面，在伺服系统中传递信号和校正特性时多用电气元件。

因此，现代高性能的伺服系统也都采用电液方式，伺服阀就是这种系统的必需元件。

VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52在工业生产及设备维护过程中, 经常会进行线圈匝间短路故障的测试。

但测试方法都不理想, 给生产、维护带来了诸多不便。

设计是通过感知振荡器来检测线圈是否有短路情况,当被测线圈无匝间短路时, 感知振荡器起振, 有正弦波输出, 再通过耦合电路将正弦波信号耦合输出给正常指示电路;如果线圈中有两匝或两匝以上之间发生短路时, 该短路线圈将构成闭合回路, 并在磁路中产生高阻尼, 使振荡器停振, 报警电路立即进行声、光报警。

丹福斯 Vickers KB比例阀概述说明书

Demanding applications call for Vickers by DanfossWith a wide range of markets serviced, our KB proportional valves are enabling truly creative solutions.As technology continues to improve, so does the engineering Danfoss builds into its proportional valves. Vickers KB proportional valves are manufactured, sold, and supported throughout the world with the high quality you expect from Danfoss. 1. Control function - direction, flow, and pressure2. Performance levels - standardhigh, and servo3. Onboard electronics – with (KB model) and without (K model)4. Complete size range – D03-D10 (NG6-NG32)5. Wide variety of supportingelectronics Integrated amplifiers mean“plug and play”Integrated amplifiers are factorypreset and eliminate any adjustmentof gain, dead-band compensation,or dither required for separatecard and valve combinations. Plusthey eliminate the need for fieldadjustments and separately wired andmounted. Replacement valves can befitted without adjusting or changingthe control signals.New design means newapplicationsWith Vickers by Danfoss, KBproportional valves design engineersnow have a new generation ofintegrated valves that redefine andexpand industrial application designcapabilities. Vickers proportionalvalves are much easier to install thanprevious models using separate driveamplifiers. The only electrical inputsrequired are a power supply and acommand signal.Built to lastFor durability, you cannot beata KB proportional valve. Theamplifier is housed in a durablemetal enclosure, sealed againstenvironmental contaminates such ascutting fluid spray, water, and fluidwash down. Seven-pin electricalmating connectors are supplied asstandard. They are reliable, rugged,and provide easy access for testequipment.Consistency of quality is assured withthe KB proportional valve. Each valve/amplifier combination is tested andcalibrated as a total assembly with avariation of less than 5% from valveto valve. You can trust Vickers KBproportional valves to do the job asspecified and perform consistentlyand reliably for years.Rubber press Entertainment Primary metal Die castingProportional valve application matrixThe matrix to the right provides guidance for many industrial applications. Locate anapplication similar to yours, then read therecommended Valve Performance Level(Standard, High, or Servo Performance) atthe top and the ISO Valve Size (Size 3, 5, 7, 8,or 10) on the right side.The matrix uses “Frequency Response”as the primary determinant forvalve performance. This is not theonly parameter of importance in allapplications, but it does serve as a goodfirst reference.For example:Sawmill Setworks applications generallyrequire Servo Performance type valves. Thevalve size could be either a Size 5 or a Size 7depending upon the flow requirements of theapplication.500(1892) 400(1514) 300(1135) 200(757) 100(378) 70(265) 50(189) 40(151) 3020(76) 10(37) 7543210.7(2.6) 0.5(1.9) 0.40.3(1.1)0.2(0.76) Frequency at 90°Phase Lag (Hz) 35 7 8 10F l o w a t 1000 P S I P r e s s u r eG P M (L P M ) I S O V a l v e S i z e Valve Performance LevelPress Paper machine Machine toolCeramic pressSpecifications, features, and benefits of KB prop valvesOBE proportional valve comparisonFlow capability Frequency response GPM(US) LPM 0Hz Red fonts mean Danfoss’ product superiority over competitors.* Digital OBE valve: KBD(T)G4V, KBDG5V, KBFDG5V, KBX(C)G, KBCG, *IP65 on limited number of familitiesProportional directional valve with on-board-electronics (OBE)Proportional directional valve without on-board-electronics (Non-OBE)Amplifier (Euro card mounting)Amplifier (Din-plug mounting)Functional module (Din-rail mounting)Others Notes:A - with 2 rampsB - A plus on-board command inputsC - B plus additional 2 rampsD - C plus PID moduleE - A plus strip guidance module F- A plus CNC adaptation moduleProportional pressure relief valve familyEHST-3KBCG-6KCG-8Proportional pressure reducing valve familyKBX(C)G-6KBX(C)G-8KX(C)G-6KX(C)G-8 Proportional throttle slip-in valve family – with main stage LVDT feedbackValvistor – proportional throttle slip-in cartridge valve familyProduct and system descriptionBenefitsHigh bending speed, with precise control of bending depth, results in greater productivity. The design of the safety system blocks reduces production and maintenance costs.In order to improve productivity and quality, it is critical that the plasticizing process be precisely controlled. It requires accurate, repeatable, and smooth transition from velocity into pressure regulation. It is also imperative to achieve smooth, quick, and precise clamping movement.Product and system descriptionServo performance proportional valves K(B)S/ HDG and high performance K(B) FDG families with tailored spool design, are the answer for meeting the extremely demanding injection and clamping control requirements. They have an excellent dynamic capability of closed loop control on pressure, position, and velocity. BenefitsReduced cycle time and costs, with improved process control. One valve with a specially designed spool does all five critical controls of plasticizing, injection speed, holding pressure, decompression, worm return, and suck-back pressure. The “valve enable” feature on the KB line can be used to easily achieve interlock function.Highly accurate positioning, repeatability of machining cycles, and precise synchronization control of cylinders during the closing movement of the bending tool, are prerequisites of the hydraulic control system.By using two K(B)F/SDG4V proportional valves for small tonnage machines, or two K(B) HDG5V valves for large tonnage machines in closed loops, Vickers valves provide the solution to this very demanding application. System control blocks provide full compliance to safety regulations.Productivity is king. This transformsto the requirements of overallmachine reliability and durability,and precise control, and shortcycle time. Harsh environment isanother challenge for proportionalvalves mounted on the machines;robustness against shock,vibration, EMC, dirt, and moistureis a must.Product and systemdescriptionServo performance proportionalvalves KBS/HDG, with fullyencapsulated OBE (EN90version), provide extremelyreliable protection in conditionof vibrations and shock.Valves with zero lap spool andgrounded spool/sleeve pilotstage are characterized by theirhighdynamic performance— withlow hysteresis and high responsesensitivity— to achieve accuratepositioning control and speedcontrol.BenefitsOnboard Electronics (OBE) valvesfeature “plug and play” to savewiring hassle and tuning time. IP65 & 67 environment protectionprovide “best in industry”protection against moisture tomake sure the proportional valveswork reliably. When coupledwith a Vickers servo cylinder,the proportional valves can bemounted directly onto the cylinderto become a servo actuatorpackage.Wind power turbine control is avery demanding application thatrequires proportional valves tobe extremely reliable and durabledue to the nature of continuousproduction process. At the heartof advanced wind turbines is ahydraulic control system thatcontrols the pitch angle of theturbine blades, hence controllingthe speed and power production.Challenges are closed looppositioning control for precisepitch angle, and low and highambient temperatures in extremelyharsh environments.Product and systemdescriptionCoupled with servo cylinders,Vickers high performanceproportional valves KBFDG providea compact, rugged, and reliablepackage solution.BenefitsDigital Onboard Electronics(OBE) valves feature presetting theparameters with programming,which results better reproducibilityand repeatability. Failsafe featureprevents the equipment frombeing damaged. IP 65 and 67protection ratings mean Vickersvalves provide better resistance tomoisture than any competitors.Primary applicationsPress brake Injection molding machine Sawmill Wind power© Danfoss | Power Solutions | May 2023AD426931590930en-000101Any information, including, but not limited to information on selection of product, its application or use, product design, weight, dimensions, capacity or any other technical data in product manuals, catalogues descriptions, advertisements, etc. and whether made available in writing, orally, electronically, online or via download, shall be considered informative, and is only binding if and to the extent, explicit reference is made in a quotation or order confirmation. Danfoss cannot accept any responsibility for possible errors in catalogues, brochures, videos and other material. Danfoss reserves the right to alter its products without notice. This also applies to products ordered but not delivered provided that such alterations can be made without changes to form, fit or function of the product. All trademarks in this material are property of Danfoss A/S or Danfoss group companies. Danfoss and the Danfoss logo are trademarks of Danfoss A/S. All rights reserved.Danfoss Power Solutions, Nordborgvej 81, 6430 Nordborg, Denmark, Tel. +45 74 88 22 22, Fax +45 74 65 25 80 ,E-mail:****************。

维克斯（Vickers）双泵双梭型交流型油泵系列操作手册说明书

I–3155–SRevised 07-01-86Quiet Intra-Vane Type Double Pumps2520V, 3520V, 3525V, 4520V, 4525V & 4535V Series -20 Design 282/283 SuffixOverhaul ManualVickers ®Vane PumpsTable of ContentsSection PageI.Introduction. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.Purpose of Manual3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .B.General Information3II.Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.General4III.Principles of Operation. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.General4IV.Installation and Operating Instructions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.Installation Drawings5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .B.Mounting and Drive Connections5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .C.Shaft Rotation5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .D.Piping and Tubing5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .E.Hydraulic Fluid Recommendations5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .F.Sound Levels6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .G.Overload Protection6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .H.Start-Up6V.Service and Maintenance. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.Circuit Inspection6B.Adding Fluid to the System6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .C.Adjustments6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .D.Lubrication6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .E.Replacement Parts6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .F.Product Life7. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .G.Troubleshooting7VI.Overhaul. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.Service Tools8. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .B.Unit Removal8. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .C.Disassembly8. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .D.Cleaning9. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .E.Inspection, Repair and Replacement9. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .F.Assembly9 VII.Start-Up and Test. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .A.Start-Up10. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .B.Test102A. Purpose of ManualThis manual describes operational characteristics and over-haul information for fixed and variable delivery inline piston type pumps and motors. The information contained herein pertains to the latest design series.B. General InformationRelated Publications– Service parts information and instal-lation dimensions are not contained in this manual. The parts catalogs and installation drawings listed in Table 1 are avail-able from Vickers.Table 1. Parts and Installation drawingsModel Codes– Variations within each basic model series are covered in the model code. T able 2 is a breakdown of the model codes covering these units. the model code will be stamped into the cover nameplate. If an older design unit is being updated to the new 282/283 design, stamp the new design number on the nameplate. Inquiries should always include the complete unit model code number as stamped on the nameplate.Model Code3520V – 25, 30, 35, 38 3525V – 25, 30, 35, 38 4520V – 42, 50, 60 4525V – 42, 50, 60 4535V – 42, 50, 607Shaft type1–Straight with square key(standard, all models)86–Straight with square key (heavyduty, all models except 2520V)3– Foot mountingTable 2. Model code breakdown3A. GeneralThe double intra-vane pump with a 282/283 suffix is designed to operate at reduced noise levels, but still maintain the same reliability, operating characteristics and service advantages of previous models.All sound reduction in the 282/283 series pump is accomplished within the cartridge kit. The ring, vanes, rotor and plate have been redesigned. The pump housing remains unchanged, thus, existing systems may be upgraded by simply replacing the cartridge kit. Figure 1 shows the basic 282/283 cartridge kit. Note that 12 vanes are assembled into the machined rotor slots. Previous designed models use 10 vanes.Figure 1. -282/-283 basic cartridge kit partsSection III – Principles of OperationA. GeneralThe operating principle of a vane pump is illustrated in Figure 2. A slotted rotor is splined to the drive shaft and turns inside a cam ring. Vanes are fitted to the rotor slots and follow the inner surface of the cam ring as the rotor turns. Centrifugal force and pressure under the vanes hold them out against the cam ring. Pumping chambers are formed between the vanes and the cam ring and are enclosed by the two end plates.The 282/283 series pumps are of a balanced intra-vane design (Figure 2). Outlet pressure is constantly applied to the small intra-vane area of the vane. As the pump vane rotates through the high and low quadrants, outlet pressure is alternately applied to the rest of the under vane area. This varying pressure under the vane reduces wear and increases pump efficiency.Pump delivery can be changed by changing the ring or installing a new cartridge kit. Table 2 shows available delivery options. Cartridge kit part numbers are tabulated in the parts and service drawings (Table 1).Figure 2. Vane Pump Operation45Section IV – Installation and Operating InstructionsA. Installation DrawingsThe installation drawings listed in Table 1 show operating characteristics, installation dimensions and port locations.B. Mounting and Drive ConnectionsCAUTIONPump shafts are designed to be installed in couplings with a slip fit. Pounding can injure the bearings. Shaft tolerances are shown on the installation drawing (Table 1).1. Direct Mounting – A pilot on the pump mounting flange (Figure 3) assures correct mounting and shaft alignment. Make sure the pilot is firmly seated in the accessory pad of the power source. Care should be exercised in tightening the mounting screws to prevent misalignment.2. Indirect drive is not recommended for these pumpswithout Vickers engineering approval.Figure 3. Mounting flange and pilotC. Shaft RotationPumps are assembled for either right hand (clockwise) or left hand (counterclockwise) shaft rotation as viewed from theshaft end.CAUTIONNever drive a pump in the wrong direction of rotation. Seizure will result, necessitating expensive repairs.D. Piping and Tubing1. All pipes and tubing must be thoroughly cleaned before installation. Recommended methods of cleaning are sand blasting, wire brushing, pickling and power flushing with clean solvent to remove loose particles.NOTEFor information on pickling, refer to instruction sheet 1221-S.2. To minimize flow resistance and the possibility of leakage, only as many fittings and connections as are necessary for proper installation should be used.3. The number of bends in tubing should be kept to a minimum to prevent excessive turbulence and friction of oil flow. Tubing must not be bent too sharply. Therecommended minimum radius for bends is three times the inside diameter of the tube.E. Hydraulic Fluid RecommendationsGeneral DataFluid in a hydraulic system performs the dual function of lubrication and transmission of power. It constitutes a vital factor in a hydraulic system and careful selection of it should be made with the assistance of a reputable supplier. Proper selection of fluid assures satisfactory life and operation of system components with particular emphasis on hydraulic pumps. Any fluid selected for use with pumps is acceptable for use with valves or motors.Data sheet I-286 for fluid selection is available from Vickers Technical Publications, Troy, Michigan 48084.Fluid recommendations noted in the data sheet are based on our experience in industry as a hydraulic componentmanufacturer. Where special considerations indicate a need to depart from the recommended fluids or operating conditions, see your Vickers sales engineer.CleanlinessThorough precautions should always be observed to insure that hydraulic system is clean.1. Clean (flush) entire new system to remove paint,metal chips, welding shot, etc.2. Filter each change of fluid to prevent introduction of contaminants into the system.3. Provide continuous filtration of fluid to remove sludge and products of wear and corrosion generated during the life of the system.4. Provide continuous protection of system from entry of airborne contamination by sealing the system and/or by proper filtration of the air.5. During usage, proper fluid filling and servicing of filters, breathers, reservoirs, etc., cannot be over emphasized.6. Thorough precautions should be taken by proper system and reservoir design to insure that aeration of the fluid will be kept to a minimum.F. Sound LevelsAlthough system noise levels can be reduced by modifying pump design, fluid conditions also play a major part in reducing system noise levels.Some of the major factors affecting the fluid conditions that cause the loudest noises in a hydraulic system are:1. Very high viscosities at low start-up temperatures can cause pump noise due to cavitation.2. Running with a moderately high viscosity fluid will impede the release of entrained air. The fluid will not be completely purged of such air in the time it remains in the reservoir before recycling through the system.3. Aerated fluid can be caused by ingestion of air through the pipe joints of inlet lines, high velocity discharge lines, cylinder rod packings or by fluid discharging above the fluid level in the reservoir. Air in the fluid causes a noise similar to cavitation.G. Overload ProtectionRelief valve limit pressure in the system to a prescribed maximum and protect components from excessive pressure. The setting of the relief valve depends on the work requirements of the system.H. Start-UpWith a minimum drive speed of 600 RPM, a pump should prime almost immediately if provision is made to initially purge the air from the system.Failure to prime within a reasonable time may result in damage due to lack of lubrication. The pump housing must be filled with fluid and inlet lines must be tight and free from air leaks. It may be necessary to crack a fitting on the outlet side of the pump to purge air trapped in the system.Section V – Service and MaintenanceA. Circuit InspectionPeriodic inspection of the fluid condition and tube or pipe line connections can save time-consuming breakdowns and unnecessary parts replacement. the following should be checked regularly:1. All hydraulic connections must be kept tight. A loose connection in a pressure line will permit the fluid to leak out. If the fluid level becomes so low as to uncover the inlet pipe opening in the reservoir, extensive damage to the pump can result. In suction or return lines, loose connections permit air to be drawn into the system resulting in noisy and/or erratic operation.2. Clean fluid is the best insurance for long service life. Therefore, the reservoir should be checked periodically for dirt or other contaminants. If the fluid becomes contami-nated, the system should be drained and the reservoir cleaned before new fluid is added.3. Filter elements also should be checked and replaced periodically. A clogged filter element results in a higher pressure drop. This can force particles through the filter which would ordinarily be trapped, or can cause the by-pass to open, resulting in a partial or complete loss of filtration.4. Air bubbles in the reservoir can ruin the pump and other components. If bubbles are seen, locate the source of the air and seal the leak.5. A pump which is running excessively hot or noisy is a potential failure. Should a pump become noisy or over-heated, the machine should be shut down immediately and the cause of improper operation corrected.B. Adding Fluid to the SystemWhen hydraulic fluid is added to replenish the system, it should always be poured through a clean wire screen (200 mesh or finer) or preferably pumped through a 10 micron (absolute) filter.It is important that the fluid be clean and free of any sub-stance which could cause improper operation or wear of the pump or other hydraulic units. Therefore, the use of cloth to strain the fluid should be avoided to prevent lint getting into the system.C. AdjustmentsNo periodic adjustments are required, other than to maintain proper shaft alignment with the driving medium.D. LubricationInternal lubrication is provided by the fluid in the system. Lubrication of the shaft coupling should be as specified by their manufacturers. Coat shaft splines with a dry lubricant (Molycoat or equivalent) to prevent wear.E. Replacement PartsReliable operation throughout the specified operating range is assured only if genuine Vickers parts are used. Sophisti-cated design processes and material are used in the manufacture of our parts.67Substitutes may result in early failure. Part numbers are shown in the parts drawings listed in Table 1.Repair Kits – Commonly replaced parts are usually provided in the form of a kit (Figure 4). It is recommended that all suchparts be replaced with the kit when a unit is overhauled.CAUTIONIndividual cartridge parts ARE NOTinterchangeable with similar parts of previous design models. Complete cartridge kits ARE interchangeable with previous designs.F. Product LifeThe longevity of these products is dependent upon envi-ronment, duty cycle, operating parameters and system cleanliness. Since these parameters vary from applica-tion to application, the ultimate user must determine and establish the periodic maintenance required to maximize life and detect potential component failure.Figure 4. Pre-assembled cartridge kitG. TroubleshootingTable 3 lists the common difficulties experienced with vane pumps and hydraulic systems. It indicates probable causes and remedies for each of the troubles listed.Table 3. Troubleshooting ChartSection VI – Overhaul A. Service ToolsStandard Tools1. One torque wrench with short extension and sockets. Select appropriate torque wrench according to cover screw specifications noted in Tables 4 and 5.2. One medium size screw driver.3. One small ball peen hammer.4. A center punch.5. One internal retaining ring pliers.6. Hydraulic oil lubricant or equivalent (SAE 10W motor oil). Special ToolsA shaft seal driver (Figure 5) is the only special tool required for overhaul.NOTEIn addition to the above tool, an arbor press may berequired to service the shaft bearing.Figure 5. Shaft seal driver B. Unit RemovalWARNINGTurn off all electrical power and relieve hydraulicpressure. Lower all vertical cylinders. Block anyload whose movement could generate pressure.1. Close off hydraulic oil source to pump inlet if an overhead reservoir is used.2. Remove the unit from the system.3. Cap all system and unit openings to prevent entry of dirt or moisture.C. DisassemblyThe inlet numbers of Figure 8 are in disassembly order se-quence.NOTE4535V models are slightly different from the modelsshown in Figure 8. Screws (4) are longer and fastencover (5), inlet housing (19) and body (38) together.Screws (18) are omitted.1. Thoroughly clean pump exterior.2. Use a prick punch and mark position of cover (5) and body (38) with respect to inlet housing (19).3. Remove two screws (1) and remove the pump from mounting flange (2).4. Remove key (3) from shaft (34).5. Remove the four screws (4) from cover (5), then, remove cover.6. Remove seals (7, 8, 9 and 10) from cartridge kit (6) and discard.7. Remove cartridge kit (6) from inlet housing (19) and disassemble according to item number sequence.8. Remove four screws (18) from housing (19) and then remove housing.9. Pull cartridge kit (20) from body (38) and disassembly in item number sequence.10. Pry under coil and remove spirolox ring (31) from body (Figure 6).Figure 6. Removing spirolox ring811. Pull the shaft group (items 32 through 34) from body (38). If bearing 933) or shaft (34) need replacement, remove retaining ring (32) with retaining ring pliers. Remove bearing (33) from shaft (34) by using an arbor press. Apply pressure to the inner race when removing bearing.12. Remove washer (35) and “O” ring (36) from body (38).13. Drive shaft seal (37) out of mounting end of body.D. CleaningAll parts must be thoroughly cleaned and kept clean during inspection and assembly. contamination of the unit will cause excessive wear, leakage and decreased service life. Use a commercial solvent which is compatible with the system fluid. Thoroughly clean all parts. Drying parts with com-pressed air after cleaning is not recommended, unless the air is completely filtered to remove water and contamination.E. Inspection, Repair and Replacement Check all internal passages. Make sure they are clean and unobstructed. Examine all mating surfaces for nicks and burrs. check locating pins and holes for wear and burrs. Check the condition of threaded parts and threaded holes. Check all snap ring recesses. Minor burrs can be removed with an India stone. Replace any part which shows wear or damage. The following parts are subject to special attention.1. Cartridge kits (6 and 20). In order to obtain maximum overhaul life of the pump, a complete cartridge kit should be installed if wear or scoring is noticed during the following inspection.a. Inspect the mating surfaces of the rotors (15 and28), outlet support plates (17 and 30) and inlet support plates (12 and 25) for wear and/or scoring.b. Inspect the vanes and inserts (16 and 29) for burrs, wear and play in the slots of the rotors (15 and 28). Remove minor burrs with an India stone.c. Inspect bushing for wear and scoring (Figure 4).2. Check the bearing (33) for wear, looseness and pitted or cracked races.3. Inspect the seal and busing mating surfaces on the shaft for scoring and wear. Replace the shaft if marks cannot be removed by light polishing.4. Remove burrs from outer edge of ring (17). Place rotor (15) and ring (27) on a flat surface. Measure ring/rotor clearance with a dial indicator. Ring/rotor clearance are noted in Table 4.F. AssemblyRefer to the parts and service drawing listed in Table 1 for replacement parts. Always replace old seals with new seals when overhauling a unit. If a cartridge kit needs replace-ment, new cartridge seals are included as part of the kit.Apply a light film of hydraulic fluid to all component parts to facilitate assembly and provide initial lubrication. Install parts in the reverse order of disassembly (Figure 8).1. Position seal (37) garter spring toward the inside of body (38) and press in place with shaft seal driver (Figure 5).2. Install washer (35) into body (38).3. If required, press bearing (33) on shaft (34) and secure with retaining ring (32). Use an arbor press for this operation and apply force to the inner race area.4. Check the keyway end of shaft to make certain it is free from nicks and burrs. A small nick or burr can damage the shaft seal during installation. Coat the keyway portion of the shaft with hydraulic fluid. Carefully install the shaft group (items 32 through 34) through the seal and into body (38). Spread spirolox ring (31) and feed it into the groove located behind the bearing. This will secure the shaft group within body (38).5. Install sealing ring (23) into body (38).6. If cartridge kit (20) is replaced with a new kit, install the kit into body (38). If cartridge kit requires assembly, assemble in reverse order of disassembly (Figure 8). During assembly, note the following precautions.a. Make sure the arrows on rotor (28) and ring (27) are in the direction of pump rotation.b. Make certain that sharp edges of vanes (29) leadin the direction of rotation (Figure 7).Figure 7. Positioning vanes in rotor9c. Make sure “O” ring (22) and back-up ring (21) are assembled correctly. Position as shown in Figure 8. Apply a small amount of system fluid to screws (24) and thread screws into cartridge kit. Install cartridge kit 920) into body (38).7. Install “O” ring (36) over cartridge kit (20) and into “O” ring groove of body (38).8. Line up the two cartridge kit pins (26) with the holes in housing (19) and then install the housing. Position the housing according to punch marks made during step C.2 of Disassembly procedure. Attach housing to the body with four screws (18). Torque the screws to specifications noted in Table 4.Table 4. Torque specifications for screw (18)9. If cartridge kit (6) is replaced with a new kit, line up pins (13) with holes in housing (19) and install kit into housing. If cartridge kit requires assembly, assemble in reverse order of disassembly. During assembly, note the following precautions.a. Make sure the rotation arrows on the rotor (15) and ring (14) are in direction of pump rotation.b. Be certain the sharp edges of vanes (16) lead in direction of pump rotation.c. Make sure “O” ring (9) and back-up ring (8) are assembled in the correct position (Figure 8).NOTECartridge kit (6) is assembled into housing (19) inthe reverse manner of cartridge kit (20). Make surethe rotation arrow of the ring points in direction ofrotation.d. Apply a small amount of hydraulic fluid to screws(11) and thread screws into cartridge kit.10. Install sealing ring (10) into cover (5).11. Install “O” ring (7) over cartridge kit (6) against the housing face.12. Position cover (5) over cartridge kit (6) according to the prick marks made during step C.2 of disassembly procedures. Install cover (5) and secure with screws (4). Torque screws (4) to specifications noted in Table 5.Table 5. Torque specifications for screw (4)13. Install key (3) into groove on shaft (34).14. Place pump into mounting bracket (2) and secure with two screws (1).Section VII – Start-Up and TestA. Start-UpInstall the unit into the system. Make sure that the drive shaft is aligned properly, all connections are tight and the hydraulic oil source is open to pump inlet. If an overhead reservoir is used, purge air from inlet line.The pump should prime almost immediately with a minimum drive speed of 600 RPM. Intermittently operate (jog) the pump until it primes. It may be necessary to loosen the outlet fitting temporarily to purge trapped air. Failure of the pump to prime in a short period of time indicates incorrect assembly or restricted flow from the reservoir.B. TestUse your hydraulic system to test the unit. Refer to the installation drawings listed in Table 1 for recommended speeds and pressures. If more precise testing is desired, consult your Vickers sales engineering office.10Figure 8. Exploded view and disassembly sequence 11Item Description Qty 12345678910111213141516171819Screw Mounting Bracket Key Screw Cover Cartridge Kit (items 7-17)“O ” Ring Back-up Ring “O ” Ring Sealing Ring Screw Inlet Support Plate Pin Ring Rotor Vanes & Intra-vanes Outlet Support Plate Screw Housing 21141111112121112141Item Description Qty 20212223242526272829303132333435363738Cartridge Kit (items 21-30)Back-up Ring “O ” Ring Sealing Ring Screw Inlet Support Plate Pin Ring Rotor Vanes & Intra-vanes Outlet Support Plate Spirolox Ring Retaining Ring Bearing Shaft Washer “O ” Ring Shaft Seal Body 11121111111111111111112Printed in U.S.A.Eaton Hydraulics 15151 Highway 5Eden Prairie, MN 55344Telephone: 612 937-7254Fax: 612 937-7130 46 New Lane, Havant Hampshire PO9 2NB England Telephone: (44) 170-548-6451Fax: (44) 170-548-7110。

Vickers 压力阀顺序阀、卸荷阀、背压阀、平衡阀和减压阀说明书

“R”, “UR”, 和“X” 03/06/10/12 系列压力达 210 bar (3000 psi) – 流量达284 l/min (75 USgpm)顺序阀、卸荷阀、背压阀、平衡阀和减压阀Vickers ®压力阀引言“R”系列顺序阀、卸荷阀、背压阀和平衡阀这种基本阀的几种配置能够通过改变　盖板位置来完成。

下面对每种功能进行简单介绍。

顺序阀和卸荷阀威格士 “压力平衡” 式压力控制阀通过内控或者外控方式引入一个压力飞升来用于控制液压系统中油流的卸荷和顺序。

可供货有以下形式：顺序阀，2 型-内控式；顺序阀，3 型-外控式；卸荷阀 4 型-外控式。

背压阀背压阀标记为 1 型-内控式，它们用于控‘ P ’ 品种也有货，用于制动回路。

平衡阀威格士“压力平衡”式平衡阀通过内控或者外控方式引入一个压力飞升来用于控制液压系统中的油流的卸荷和顺序。

可供货的有以下型式：平衡阀，1 型-内控式，平衡阀，4 型-外控式，这些阀通常用于保持系统中垂直负载不下降。

所有型号都有内置单向阀提供反向自由流动，（当不需要反向自由流动时，参考不带内置单向阀的平衡阀）。

“UR”系列卸荷溢流阀，带内置单向阀内置单向阀防止从蓄能器通过卸荷阀的回油。

在蓄能器系统中，当蓄能器压力达到调定的最高压力时，阀自动切断，在切入压力下（约为调定最高压力的 85%）阀自动使流量通向蓄能器和液压系统。

在双泵系统中，阀自动决定顺序，使泵的输出在低压下为大流量，在高压下为小流量。

“UR T”标记的型号有螺纹油口，并且要求单独的单向阀，起到卸荷回路的功能。

“X”系列减压阀这些减压阀保持出口压力在一个减压的等级上，不受进口压力在高于阀的设定压力以上变化的影响。

在压力低于阀的设定值下，阀也允许反向自由流动。

目录表R(C)*-03/06/10/12 系列顺序阀、卸荷阀、背压阀和平衡阀　．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．3 UR T*-06/10 系列卸荷阀溢流阀　．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．14 UR G*-06/10 系列卸荷阀溢流阀．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．17 XS L/XTL-03 系列减压阀　．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．21 XG L-03 系列减压阀．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．23 X(C)*-03/06/10 系列减压阀　．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．26应用数据　．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．．35给液压执行器提供背压防止超速。

EATON Vickers 比例阀说明书

这种阀由施加在电磁铁 A 或 B 上的电流来控制。此电流在电磁铁推杆上产生一个力，使阀芯移动。阀芯移动到电磁力与复位弹簧力平衡为止。因而，阀芯的位移与通过电磁铁线圈的电流大小成比例。
特征和优点
● 这种全球性产品的制造按照世界级质量 ● 为提高可靠性பைடு நூலகம்性能，所有阀的 NFPA ● 阀和放大器作为一个性能经过测试的组
标准，并在全球范围内销售和服务。
疲劳额定值是 350 bar (5075 psi)。
件进行选择、订货、交货和安装。
● 由于采用威格士 DG4V-3 (S) 电磁换向 ● 全封闭的电磁线圈使普通工业用油无 ● 减少和简化了安装接线。
阀的通用部件，KDG4V 阀和 KTG4V 法渗透。线圈的拆卸和更换非常便捷容
* Viton 是 DuPont 公司的注册商标。
2
目录
概述
典型应用，进口节流和出口节流，阀芯位置，流量，推荐油液，压力补偿，
附件，电气信号，电气插头. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 典型阀的剖视图，图形符号 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 用于阀选择的系统计算 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 KDG4V-3S 和 KTG4V-3S 标准性能阀 – 100 bar (1450 psi) 油箱管路额定值型号编法 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7

VICKERS比例阀安装使用技术资料

VICKERS比例阀安装使用技术资料VICKERS比例阀安装使用技术资料VICKERS比例阀和伺服阀主要由电机械转换器和气动放大器组成。

但随着近年来廉价的电子集成电路和各种检测器件的大量出现，在1电气比例/伺服阀中越来越多地采用了电反馈方法，这也大大提高了比例/伺服阀的性能。

电气比例/伺服阀可采用的反馈控制方式，阀内就增加了位移或压力检测器件，有的还集成有控制放大器。

一、滑阀式美国威格士VICKERS方向比例阀流量式四通或五通比例控制阀可以控制气动执行元件在两个方向上的运动速度，这类阀也称方向比例阀。

图示即为这类阀的结构原理图。

它由直流比例电磁铁1、阀芯2、阀套3、阀体4、位移传感器5和控制放大器6等赞成。

位移传感器采用电感式原理，它的作用是将比例电磁铁的衔铁位移线性地转换为电压信号输出。

VICKERS电磁阀（又是安全阀）的主阀按配合形式不同可分为三级同心、二级同心和滑阀式三类．其中滑阀式结构工作压力低，控制压力精度不高；三级同心结构虽成熟，目前应用较广，但与二级同心式比较，不及二级同心式动作灵敏，规格相同，行程相同时，二级同心结构的通油能力远大于三级同心结构；二级同心式控制压力稳定，加工工艺性好，二级同心式应用前景广阔，这里以二级同心结构，讨论其结构尺寸设计方法．VICKERS电磁阀出来的先导油控制主换向阀阀芯的移动，使工作泵的来油进入动臂油缸实现动臂上升。

比例先导减压阀的输出压力越大，控制主换向阀阀芯的位移越大，主换向阀通过的流量越大，动臂上升的速度越快。

当操作手柄拉*限位置时，手柄中的限位电磁铁通电，手柄在极限位置被吸合。

动臂以zui大的速度上升，当升至动臂上位限位开关所限定的位置时，操作手柄限位电磁铁断电，手柄自动恢复到中位，动臂就可保持在所限定的位置。

在动臂上升的过程中，若需要动臂在某一位置停留，则需将操作手柄退回中位。

VICKERS电磁阀主要用在电气液压伺服系统中作为执行元件（见液压伺服系统）。

比例方向控制阀比例阀-Vickers伊顿威格士

Vickers ®
比例阀
比例方向控制阀
K(A)DG5V-5/7/8 & KDG5V-10, 1* 系列两级型不带电气反馈 ISO 4401 规格 05, 07,08 和 10 ANSI/B93.7M-D07/08/09
这个产品的设计和试验已满足欧洲电磁相容性规程 (EMC) 89/336/EEC (通过 91/263/EEC，92/21/EEC 和 93/68/EEC，第 5 款的修正) 这一专门的标准纲要。关于实现有效保护等级的安装要求细节，见这个样本和威格士电子产品的安装接线实施说明书 2468，以及每一件 KA 型阀均包装有的说明书 02-123931A。和这个规程相关的接线实施用电磁相容性 (EMC) 来指示。
关闭
7=
P 口打开至 A 和 B
12 =
当阀芯对中时全部油口关
闭，当阀芯通电时有差动
功能
33/133 = 当阀芯对中时，A，B 排
放至 T
4 阀芯／弹簧配置 C = 阀芯弹簧对中
5 额定流量
见 B.6 页的"阀芯数据" 额定流量 (L/min) 用于对称阀芯： "A" 口的额定流量 (L/min)用于非对称阀芯
这类阀为每次工作循环中有重复负载条件的应用场合，例如注塑机中的合模/开模，提供有效而经济的解决方案。
带内装放大器的 5，7，8 规格的阀有货。
特征和优点
● 这种阀的制造是按照世界级的质量标准，并且在全球范围内销售和维修。
● 这种阀作为反馈型比例阀和伺服阀的一种成本有效的代替品，拓展了应用前景。
减压阀模块见 "型号编法"
主级阀芯型式 “2C” 所示
7 针插头

威格士vickers比例阀工作原理

威格士Vickers比例阀是一种常用于流体控制系统中的阀门，它能够根据输入信号的变化，精确地调节流体流量或压力。

以下是威格士Vickers比例阀的工作原理：
1. 结构：威格士Vickers比例阀由一个阀体和一个电磁控制芯片组成。

阀体内部有一个运动活塞（spool），它的位置可以通过电磁控制芯片的控制而改变。

2. 电磁控制：威格士Vickers比例阀的电磁控制芯片根据输入的电信号来控制活塞的位置。

电磁控制芯片由外部电源供电，通过调节电压和电流来控制芯片内部的线圈，从而产生电磁力。

3. 活塞运动：根据电磁力的作用，活塞会在阀体内部运动。

活塞的运动会改变阀体内部通道的开度，从而控制流体的流量或压力。

4. 反馈机制：威格士Vickers比例阀通常配备了反馈传感器，用于检测流体的实际流量或压力情况，并将反馈信号传回电磁控制芯片。

通过与输入信号进行比较，电磁控制芯片可以根据反馈信号动态调整活塞的位置，以保持设定的流量或压力。

总结来说，威格士Vickers比例阀的工作原理是通过电磁控制芯片控制活塞的位置，进而改变阀体内部通道的开度，从而实现对流体流量或压力的精确调节。

反馈机制可以帮助实时监测和调整阀门的工作状态，以满足实际应用的需求。

方向控制值：VICKERS 方向控制阀门操作阀门 DG4S -01 型号说明书

671Revised 8/97NFPA D05, ISO-4401-05DG4S*-01**-5* Air Gap TypeVICKERS®Directional ControlsSolenoid Operated Directional Control ValvesTable of Contents. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . DG4S*-01 Model Code3. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . General Information 4 Basic CharacteristicsMounting PositionInstallation DataService Information. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Spool Type & Graphical Symbols5. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Pressure Drop6. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Flow Ratings7 Port Orifices. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Installation Dimensions8 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Subplates & Bolt Kits11. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Electrical Information12 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Electrical Connectors14. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Application Data16IntroductionDG4S*-01 models are air gap type,direct solenoid operated, 2-way or 4-way directional control valves. Their primary function in a hydraulic circuit is to direct fluid flow to a work cylinder orto control the direction of rotation of a hydraulic motor.Port connections are made by mounting the valve on a manifold or subplate containing the interface.Valves are available with AC or DCsolenoid(s). Electrical connections to the valve are made in an electrical wiring terminal box or by various plug-indevices. A ground terminal is provided.Model CodeTwo & Four-way Directional ValvesOmit for right hand assemblyFor spool/spring arrangements A,B, & F only (energizing solenoid B provides flow from P to A)0–Open center all ports1–Open center P & A, closed B 2–Closed center all ports 3–Closed center P & B 6–Closed center P only 7–Open center, T blocked 8–Tandem open crossoverMounting typeG -Manifold or subplate5General InformationBasic Characteristics Max. pressure:207 bar (3000 psi)P,A, & B ports. Max. flow:75,7 l/min (20 USgpm) Weights:Single solenoid 4,1 kg (9 lbs)Single solenoid, plug-in type4,5 kg (10 lbs). . . . . . . . . . .Double solenoid 4,6 kg (10.3 lbs) Double solenoid, plug-in type5,1 kg (11.3 lbs) . . . . . . . . . . .Fluid Cleanliness: See page 15. Mounting InterfaceISO 4401-05CETOP 5NFPA D05Mounting PositionNo-spring detented valves must beinstalled with the longitudinal axishorizontal for good machine reliability.The mounting position of spring-offsetand spring-centered models isunrestricted.Installation DataOn two-way valves, “T” drain connectionmust be piped directly to tank through asurge free line so there will be no backpressure at this port.NOTEAny sliding spool valve, if held forlong periods of time, may stick andnot spring return due to fluid residueformation and therefore, should becycled periodically to prevent thisfrom happening.Service InformationRefer to specific Vickers parts drawingfor service parts information. A completeparts breakdown is contained in thisdrawing.Order by literature number.Electrical Accessories I-3465-S. . . . .Insta-Plug Connector I-3487-S. . . . .DG4S*(L)-01*N-(***AC)*-5*I-3471-SDG4S4-01*(*)C-(*)-5*I-3477-S. . . . .DG4S2-012C-(*)-5*I-3477-S. . . . . . .DG4S2(L)-012A-(*AC*)-5*I-3478-S.DG4S4(L)-01*A-(*AC*)-5*I-3478-S.DG4S4(L)-01*C-H-(*AC*)-5*I-3483-SDG4S*(L)-01*A-H-(*AC*)-5*I-3485-SSDG4S*(L)-01*A-5*I-3489-S. . . . . . .DG4S4-01*C-*DC-5*I-3506-S. . . . . .DG4S2-012A-*DC-5*I-3507-S. . . . .DG4S4-01*A-*DC-5*I-3507-S. . . . . .XDG4S2-012N(*AC*)-5*-*I-3523-S.XDG4S4-01*N(*AC*)-5*-*I-3523-S.XDG4S2-012A(*AC*)-5*I-3527-S. . .XDG4S4-01*A(*AC*)-5*I-3527-S. . .Two-way valve Four-way valve Four-way valveSpool Type & Graphical Symbols BRestricted flowPressure Drop1. Pressure drop data givesapproximate pressure drop (∆P) when passing 21 cSt (100SUS) fluid(s) having .865 specific gravity.2.For any other viscosity(s), thepressure drop (∆P) will change as follows:119126132137141ViscositycSt(SUS)14(75)32(150)43(200)54(250)65(300)76(350)86(400)% of D P (Approx.)931113.For any other specific gravity (G 1)*,the pressure drop (∆P 1), will be approximately:∆P 1 = ∆P(G 1/G)* Specific gravity of fluid may be obtained from its producer. The value is higher for fire-resistant fluids than for oil.NoteWhen solenoid “a ” is energized, flow is always P A. When solenoid “b ” is energized, flow is always P B. This is in accordance with the ANSI-B93.9 standard. Standard spring offset valves are assembled right hand, such that flow is P A in the spring offset position (solenoid is de-energized). Solenoid “a ” and “b ” are identified on the diagram plate.Valve TypeSpool TypeRecommended Flow Capacity Maximum Flowwithout Malfunction G No SpringDetented 4-way0, 2, 6, 7, 3338 l/min (10 USgpm)Spring Centered 8G Maximum flow is dependent upon the valve type used and is subject to variation due to changes in operating pressure or tank line back pressure. If operating pressure and tank line back pressure simultaneously approach maximum, or if higher flow rates are desired, contact your local distributor or a Vickers representative.0, 2, 3, 6, 7, 33Spring Offset 4-way0, 2, 6Spring Centered 76 l/min (20 USgpm)30,3 l/min (8 USgpm)45,5 l/min (12 USgpm)1Spring Centered 18,8 l/min (5 USgpm)18,8 l/min (5 USgpm)No-SpringDetented 2-way Spring Offset 2-way211,3 l/min (3 USgpm)11,3 l/min (3 USgpm)Flow RatingsPort OrificesDG4S4-01 InterfaceOrifices are available for insertion into the interface ports of the NFPA-D02 size valves. These orifices are made from standard 1/16” NPT pipe plugs which are inserted into a retainer. The retainer and plugs are available from stock as follows:222500Retainer. . . .62014∅ 7,9 (.031) plug . . . . . 66609∅ 1,02 (.040) plug . . . . . 237588∅ 1,5 (.060) plug . . . . 82031∅ 2,4 (.094) plug . . . . . 81593Blank plug. . . . .6,0(.234)∅1/16” NPTInstallation DimensionsDouble Solenoid, No-spring Detented & Spring Centered ModelsTorque housing screws 1,4Ć1,8 N.m (12Ć18 lbf.in.)261,9(10.31)131,1(5.16)97,7(3.85)89,4(3.52) L " models45,3(1.78)90,5(3.56)9,5(.38)53,9(2.12)27,0(1.06)46,0(1.81)23,0(.91)10,3(.41)23,8(.94)10,3(.41)23,8(.94)1,6(.06)16,7(.66)Millimeters (inches)69,9(2.75)36,1(1.42)69,9(2.75)∅ 7,1 (.281) Ć44 C'bore 4 holes formounting (allows use of metric fasteners).T" Normal tank connection for 4Ćway models (conn. to reservoir). On 2Ćway models T" conn. is drain.Optional tank or drain connection.For convenience of user in applying to drilled panels.Cyl. A" connectionP" Pressure connectionCyl. B" connection Electrical conduit connection 1/2" NPT thread (alternate connection on other side). Two lead wires for each solenoid approx. 153 (6.00) long with #8 size eyelets provided for customer connection.Manual actuatorDiagram plate showing circuit informationMounting surface(seals furnished)Solenoid indicator lights (optional)Sol. aSol. b26,7(1.05)DC SolenoidsMillimeters (inches)Single solenoid, spring offset modelDouble solenoid, no-spring detentedXM - Valves for mining applications are built to MSHA schedule 2G-File X/P837-2. Available in all standard AC voltages.Single Solenoid with Monitor SwitchMillimeters (inches)282010125200.5250200.2480206005An integral monitor switch permits electrical interlocking of varioushydraulically controlled motions without resorting to external mechanicalcontrivances. The switch monitors the valve spool position and may be wired into the control circuit.Monitor switch data: Plunger type- panel mounting - single pole- double throw contact arrangement - A " normally closed - B" normally openVolts AC amp DC amp Monitor switch housing does not provide for manual operation.56,4(2.22)Hole for switch leads1,90± 0.38(.075 ± .015)Sol. b133,4(5.25)187,5(7.38)Subplates & Bolt KitsValves, subplates and mounting bolts must be ordered separately. Example:One (1) DG4S4-012A-50 ValveOne (1) DGSM-01-20-T8 Subplate One (1) BKDG01-633 Bolt KitSide connection subplates are also available with 3/8” and 1/2” pipe threads.When subplate is not used, a machined pad (as indicated by subplate shaded area, below) must be provided for mounting. Pad must be flat within0,0127 mm (.0005 inch) and smooth within 63 microinch. Mounting bolts, when provided by customer, should be SAE grade 7 or better.Torque mounting bolts to:13 Nm (115 lb. in.)4-holes for mounting * Ports on Model DGSME-01-20-T8 ed with DG16 valve.Model Numbers“E” Thread Tube Size Dimension “A”DGSM-01-20-T8.750-16 UNF-2B1/2” O.D.31,75 (1.25) DGSME-01-20-T8.750-16 UNF-2B1/2” O.D.38,10 (1.50)Electrical InformationSolenoidsSolenoids on models listed are for115V AC - 60 Hz service. Solenoids forother voltages and frequencies areavailable. Specify in model number ifother than 115V AC - 60 Hz service isdesired. See model code for options.NoteSolenoids are designed to functioncontinuously at "10% of the ratedvoltage.NoteAll solenoid coil wire insulation isClass “F”. Standard solenoid coillead wire has Class “A” insulation.“F3” solenoid coil lead wire isClass “F”.Solenoid EnergizingSpring centered and spring offset typeswill be spring positioned unless solenoidis energized continuously. No-springdetented valves may be energizedmomentarily, approximately 0.1 second;when solenoid is de-energized spool willremain in last position attained providedthere is no shock, vibration, or unusualpressure transients.* Canadian Standards Association Certification. Valves with solenoid voltages of 115V AC - 60 Hz, 230V AC - 60, 12V DC and 24V DC have Canadian standards certification. Identify by adding S324 suffix in the model code. This certification does not include models with indicator lights (L) or plug-in devices (PA*/PB).Electrical Accessories & OptionsWiring Housing - Lights forDG4S*/DG5S4/DF5S4 ValvesThe electrical accessories options are available on the basic DG4S*01-* directional control and all valves that use the DG4S4-01* as pilot valve. An electrical wiring diagram is provided on the bottom of the nameplate, and shown below, for installation instructions. Lights (L)Lights are “on” when there is voltage across the solenoids. (Only double lights are available.) Lights are available with most options (the light option has an integral terminal strip) and are for use with 100 through 125 and 192 through 233 volt service solenoids only. They are not available for hazardous duty type models.Wiring Housing (W)The wiring housing (W) is a 39,6 (1.56)high riser block mounted on top of thepilot valve. A 1/2” NPTF threadconnection is provided in one end of thehousing. The housing can be rotated180_ if the connection is required onthe opposite end. This connection willreadily accept common electrical quickdisconnect assemblies on the market.The wiring housing is available withmost options.GroundingA drilled hole is provided for a #8 selftapping screw which will permit a groundwire to be secured to the pilot valvebody.Wiring housing “W” has a cast hole(see below) which also permits securinga ground wire with customer’s #8 selftapping screw. Units can be seriesgrounded if desired. The DG4S*-01 pilotvalve bodies have a cast “ground”symbol adjacent to the drilled hole.NOTEElectrical accessories shown are notavailable with hazardous duty typemodels identified by model prefix “X”or “XM”.Electrical DiagramLights & Wiring HousingW, LW Models.50 NPTF Dryseal thread. For type 4 & 8Electrical ConnectorsInsta-Plug OptionThe insta-plug consists of the following features:Section “A ”, a four –pronged self aligning electrical plug secured in a housing that is mounted on top center of the valve body where the solenoid leads terminate; or:A “B ” complete insta –plug assembly that includes the “A ” housing on top of which rests a similar housing containing the mating receptacle.The two housings are keyed to assure proper hook –up.The top housing is removed from the lower (“A ”) housing to break theelectrical connections to the valve solenoids, or pressed onto the “A ”housing to complete the circuit. The assembly is held together by two slotted thumb screws.A nameplate and solenoid indicator lights are part of the receptacle when specified.Connections to electric power are made through the end of the receptacle housing and can be pre-wired by the customer. End location of electrical conduit port permits space –saving side-by-side valve mounting.Wire leads approximately 177.8 mm (7.00”) long are provided when no lightsare specified. Models with lights have terminals inside the receptacle housing.After initial installation, electrical and hydraulic connections need not be disturbed when valve with insta –plug is removed.NOTESolenoids “A ” and “B ” are identified on the plug-in and receptacle housing; they correspond withsolenoid identification plate. In case of tandem valves (#8 spool and LH models), the insta-plug is rotated 180° and conduit connection is on the opposite end.Lights & Wiring HousingInsta-plug with solenoid indicator lightsElectrical receptacle8-32 Tapped hole for customer to connect ground88,9(3.50)44,4(1.75)Insta-plug without lightsNFPA Hydraulic Valve Electrical ConnectorThe receptacle is a standard three or five pole electrical connector with shortened leads and terminals added. The five pole plug has four leads 101,6 (4.0) long and one 177,8 mm (7.0”) long.The three pole plug has two leads101,6 mm (4.0”) long and one 177,8 mm(7.0”) long.All of the wires have Underwritersrecognized non-solder insulated eyeletterminals. The #4 and #2 leads areattached to the “A” solenoid, and the #5and #1 leads are attached to the “B”solenoid. The green wire is used for theground connection (#8 screw furnished).Electrical Connector Plug Millimeters (inches)on single solenoid models, and over “b”solenoid on dual solenoid models. See diagram plate for “b” solenoid location. Electrical rating 600 volts, 3 pole, 10 amps and 5 pole, 8 amps. Female portable plug to be furnished by customer.[ Receptacle will be preĆwired directlyto the terminals on the solenoidindicator light package.(For exception see note K").∆ Receptacle will be prewired to thesolenoid eyelets. The connection will bemade via No. 6 screws and nutsinsulated with black electrical tape.(For exception see note “K”).K For models with monitor switch,wires to be supplied and connected bycustomer.Application DataFluid CleanlinessProper fluid condition is essential for long and satisfactory life of hydraulic components and systems. Hydraulic fluid must have the correct balance of cleanliness, materials and additives for protection against wear of components, elevated viscosity and inclusion of air. Recommendations on contamination control methods and the selection of products to control fluid condition are included in Vickers publication 561,“Vickers Guide to Systemic Contamination Control”.The book also includes information onthe Vickers2 m m, 5 m m and 15 m m. concept of“ProActive Maintenance”. The followingrecommendations are based on ISOcleanliness levels atFor products in this catalog therecommended levels are:0 to 210 bar (3000 psi)20/18/15. . . . . .210 + bar (3000 + psi)19/17/14. . . . . .Vickers products, as any components, willoperate with apparent satisfaction in fluidswith higher cleanliness codes than thosedescribed. Other manufacturers will oftenrecommend levels above those specified.Experience has shown, however, thatlife of any hydraulic components isshortened in fluids with highercleanliness codes than those listedabove. These codes have been provento provide a long trouble-free service lifefor the products shown, regardless ofthe manufacturer.Flourocarbon seals are standard andare suitable for use with phosphateester type fluids or their blends, waterglycol, water-in-oil emulsion fluids andpetroleum oil. Refer to data sheet 694for hydraulic fluid and temperaturerecommendations.。

比例阀使用说明范文

比例阀使用说明范文比例阀是一种常用的控制阀门，用于控制流体介质的流量比例。

它是通过调节阀门的开度来控制流量的比例，从而实现对系统的精确控制。

本文将详细介绍比例阀的使用说明，包括安装、调试、维护等方面的内容。

一、比例阀的安装1.首先，在安装比例阀之前，需要对阀门进行清洁和润滑，以确保其正常运转。

2.确保安装区域没有其他物体或管道与比例阀产生冲突，并且有足够的空间来进行操作和维护。

3.将比例阀正确地安装在管道上，确保阀门的进出口与管道连接正确，并且紧固牢固，以避免泄漏。

4.如果需要，使用密封胶或垫片来确保阀门的密封性。

二、比例阀的调试1.在开始调试之前，确保所有的阀门和管道部件都正确安装，并且未存在任何故障。

2.将比例阀的电线与控制系统连接，确保电线连接正常。

3.打开电源，并在控制系统中选择所需的比例，并将其设置为相应的数值。

4.观察比例阀的工作情况，检查其是否按照设定的比例开启或关闭，如果不符合要求，则需要重新调整。

三、比例阀的维护1.定期检查比例阀的工作情况，包括开启和关闭的速度、阀门的密封性等方面的检查。

2.如果发现比例阀存在泄漏或设定值不准确等问题，应及时进行维修或更换。

3.定期对比例阀进行润滑和清洗，以确保其正常工作。

4.防止比例阀受到过大的冲击或振动，以避免损坏。

四、比例阀的注意事项1.在使用比例阀时，应确保流体介质的温度和压力在比例阀的额定范围内。

2.避免在比例阀关闭过程中施加过大的压力，以防止阀门损坏。

3.在操作比例阀时，应注意阀门的开度是否与设定值相符，如有需要，可进行微调。

4.在比例阀停用时，应将其关闭，以免浪费能源和损坏阀门。

总结：比例阀作为一种重要的控制阀门，广泛应用于工业生产和流体控制领域。

正确的安装、调试和维护比例阀，可以确保其正常工作，并提高系统的控制精度。

此外，在使用比例阀时，还应注意安全操作，遵守相关规定，以防止意外事故的发生。

CG系列美国威格士平衡阀的产品内容及工作原理

CG系列美国威格士平衡阀的产品内容及工作原理CG系列美国威格士平衡阀的产品内容及工作原理：美国VICKERS平衡阀CG系列相当于一个局部阻力可以改变的节流元件，对不可压缩流体，由流量方程式可得：式中：Q--流经美国VICKERS平衡阀CG 系列的流量ξ--美国VICKERS平衡阀CG系列的阻力系数 P1--阀前压力P2--阀后压力 F--美国VICKERS平衡阀CG系列接管截面积ρ--流体的密度由上式可以看出，当F一定（即对某一型号的美国VICKERS平衡阀CG系列），阀门前后压降P1-P2不变时，流量Q仅受美国VICKERS平衡阀CG系列阻力影响而变化。

ξ增大（阀门关小时），Q减小；反之，ξ减小（阀门开大时），Q增大。

美国VICKERS平衡阀CG系列就是以改变阀芯的开度来改变阻力系数，达到调节流量的目的。

静态美国VICKERS平衡阀CG系列的使用场合静态美国VICKERS平衡阀CG系列操作复杂，调节时需配备智能仪表，即使有专业的技术人员用户流量的藕合现象也很难使用户达到平衡状态。

利用阀门KV值及阀门曲线来确定阀门开度的方静态美国VICKERS平衡阀CG系列是常用的老水力平衡产品，它适合以热源为主变流量的系统。

调节时各用户间流量相互藕合作用，真正的把庞大的热用户调节平衡是很难实现的。

美国VICKERS平衡阀CG系列是一种特殊功能的阀门，有定量的测量功能和调节功能，系统调试时，调试人员通过与专用智能仪表人机对话，对美国VICKERS平衡阀CG系列进行调整，即可实现系统的水力平衡。

它具有良好的流量调节特性，相对流量与相对开度呈线性关系。

有精确的阀门开度指示，最小读数为阀门全开度的1℅。

有可靠的开度锁定记忆装置，阀门开度变动后可恢复至原锁定位置。

美国VICKERS平衡阀CG系列的原理是阀体内的反调节，当入口处压力加大时，自动减小通径，减少流量的变化，反之亦然。

如果反接，这套调节系统就不起作用。

而且起调节作用的阀片，是有方向性的，反向的压力甚至可以减少甚至封闭流量。

vickers换向阀技术参数

Vickers换向阀技术参数一、引言换向阀是液压系统中的重要组成部分，主要用于控制介质的流向。

V i ck er s换向阀技术参数对于正确选择和应用换向阀具有重要意义。

本文将介绍Vi ck er s换向阀的技术参数，帮助读者更好地理解和使用该产品。

二、换向阀的定义与分类换向阀是一种能够改变液压系统流向的控制元件，广泛应用于工程机械、冶金设备等领域。

根据控制方式和工作原理的不同，换向阀可以分为手动换向阀、机械换向阀和电动换向阀等多种类型。

三、Vicker s换向阀的常见技术参数以下是V ic ke rs换向阀常见的技术参数：1.额定压力（R a t ed P r e s s u r e）换向阀的额定压力是指在正常工作状态下，能够承受的最大压力。

一般以MP a为单位进行表示。

2.最大工作压力（M a x W o r k i n g P r e s s u r e）换向阀的最大工作压力是指换向阀在瞬时工作状态下能够承受的最大压力。

一般情况下，最大工作压力要小于额定压力。

3.流量范围（F l o w R a n g e）换向阀的流量范围是指换向阀在单位时间内能够通过的最大流量。

一般以升/分钟或升/秒为单位进行表示。

4.控制方式（C o n tr o l M e t h o d）换向阀的控制方式可以是手动、气动、电动等多种形式。

不同的控制方式适用于不同的工况和应用场景。

5.工作温度（O p e ra t i n g T e m p e r a tu re）换向阀的工作温度是指换向阀能够正常工作的温度范围。

过高或过低的温度都可能对换向阀的使用造成影响。

6.寿命（S e r v i c e L i f e）换向阀的寿命是指其在正常使用条件下，预期能够工作的时间。

寿命的长短与产品质量、使用环境等因素相关。

四、Vicker s换向阀的选型与应用正确选型并合理应用V ic ke rs换向阀对于液压系统的稳定运行至关重要。

vickers换向阀技术参数

Vickers换向阀技术参数概述Vickers换向阀是一种常用于液压系统中的关键元件，用于控制液压流体的方向。

它具有可靠性高、响应迅速、耐用等特点，广泛应用于工业、农业、航空航天等领域。

本文将详细介绍Vickers换向阀的技术参数，包括工作压力、流量、温度范围等方面的内容。

技术参数工作压力Vickers换向阀的工作压力是指其能够承受的最大压力范围。

一般情况下，Vickers换向阀的工作压力在1000 psi到5000 psi之间。

不同型号的换向阀具有不同的工作压力范围，用户在选择时应根据实际需求进行合理的选择。

流量Vickers换向阀的流量是指单位时间内通过阀的液压流体量。

流量参数对于液压系统的设计和性能至关重要。

Vickers换向阀的流量范围广泛，一般从几升每分钟到几百升每分钟不等。

用户在选择时应根据系统的流量需求进行合理的选择。

温度范围Vickers换向阀的温度范围是指其能够正常工作的温度范围。

一般情况下，Vickers换向阀的温度范围在-20℃到80℃之间。

在高温或低温环境下，Vickers换向阀的性能可能会受到影响，用户在选择时应注意根据实际工作环境进行合理的选择。

阀口压降Vickers换向阀的阀口压降是指液压流体通过阀时产生的压力损失。

阀口压降是一个重要的参数，它直接影响液压系统的效率和性能。

Vickers换向阀的阀口压降一般较小，通常在5 psi以下。

响应时间Vickers换向阀的响应时间是指其从接收指令到实际执行动作所需的时间。

响应时间是影响液压系统动态性能的重要因素之一。

Vickers换向阀的响应时间通常较短，一般在几毫秒到几十毫秒之间。

寿命Vickers换向阀的寿命是指其能够正常工作的时间。

Vickers换向阀采用高品质的材料和先进的制造工艺，具有较长的使用寿命。

一般情况下，Vickers换向阀的寿命可达数万小时，用户在使用时应注意定期检查和维护，以确保其正常运行。

安装方式Vickers换向阀的安装方式有多种，常见的包括法兰安装、螺纹安装等。

威纳比例阀安全操作及保养规程

威纳比例阀安全操作及保养规程前言威纳比例阀被广泛应用于各种机械设备和生产线中，其性能优异，广受用户信赖。

然而，对于使用不当或者保养不当的比例阀，会给设备带来意想不到的损失。

因此，在正式使用比例阀前，必须了解比例阀的安全操作和保养规程。

安全操作规程1. 了解使用环境在使用威纳比例阀时，需要了解使用的环境是否有爆炸危险、是否存在易腐蚀物质、是否存在有害气体等情况，以便选择合适的比例阀型号。

2. 正确连接管路在连接管路时，需要注意管路的质量、密封和连接紧固，以确保管路连接良好，避免出现泄露或断裂等情况。

3. 注意压力控制在使用过程中，需要对比例阀进行压力控制。

操作人员需要清楚理解比例阀的压力控制原理，严格按照使用规程进行操作，避免因为压力控制不当而产生意外情况。

4. 避免比例阀振动在比例阀使用过程中，避免因为管路或使用环境因素导致比例阀发生过度震动。

如果发生比例阀过度震动的情况，需要及时采取措施进行维修或更换。

5. 禁止私自拆卸如果需要对比例阀进行拆卸、检修和更换等操作，需要交由专业维修人员进行操作。

任何非法操作都有可能对设备造成损失。

保养规程在日常使用过程中，需要对威纳比例阀进行定期保养和维护，以确保其正常工作状态，延长使用寿命。

1. 定期清洁威纳比例阀应该定期清洁其内部的零部件，以免因为污物、杂质等物质的堆积而导致性能下降或故障。

2. 添加润滑剂根据使用环境和工作状态，需要对威纳比例阀的润滑部位进行定期加油加脂，以确保润滑部位保持顺畅的工作状态。

3. 定期检查威纳比例阀也需要定期进行检查和维护。

在检查时应该注意比例阀的密封性和压力控制状态，对发现的问题应该及时修复。

4. 合理存储如果需要对比例阀进行暂时的存储，需要将比例阀放置于干燥、通风、无阳光直射的地方，避免受潮、受热以及长时间潮湿等不良条件导致比例阀受损。

总结通过以上内容的介绍，我们可以清楚的了解到威纳比例阀的安全操作和保养规程。

对于比例阀的使用者而言，严格遵守相关规程是使用比例阀的前提和保障。

vickers比例阀

Vickers比例阀景区一位负责人介绍，电站一旦建起来，其尾水回水位将达龙头岛，平水潭、堆石坝、赵家渡三个核心景区都在被淹范围之内，而这一段也是号称“西部第一漂”的马岭河漂流中最惊险、最精彩的一段。

水电站建成后，“景区规划的从赵家渡到坡洋口的漂流将随之泡汤”。

赞成:把电站建成新景点，添财又添景“坝址是经过严格论证并经贵州省建设厅批准的，大坝将设计为双曲拱坝，坝的外形和形成的湖面可以成为一个人造景点。

”11月9日，在赵家渡坝址选址处，黔西南州赵家渡水电开发有限公司总工程减压阀>>比例式减压阀>>比例式减压阀产品名称：比例式减压阀产品型号：Y43X产品口径：DN25-200产品压力：1.6-6.4Mpa产品材质：铸钢、不锈钢、合金钢等产品概括：生产标准：国家标准GB、机械标准JB、化工标准HG、美标API、ANSI、德标DIN、日本JIS、JPI、英标BS生产。

阀体材质：铜、铸铁、铸钢、碳钢、WCB、WC6、WC9、20#、25#、锻钢、A105、F11、F22、不锈钢、304、304L、316、316L、铬钼钢、低温钢、钛合金钢等。

工作压力1.0Mpa-50.0Mpa。

工作温度：-196℃-650℃。

连接方式：内螺纹、外螺纹、法兰、焊接、对焊、承插焊、卡套、卡箍。

驱动方式：手动、气动、液动、电动。

产品详细信息Y43X比例式减压阀概述我公司生产的比例式减压阀，外形美观、质量可靠，比例准确，工作平稳，既减动压也减静压。

该阀利用阀体内部活塞两端不同截面积产生的压力差，改变阀后的压力，达到减压目的。

我公司减压阀的减压比例是：2∶1，3∶1，4∶1，3∶2，5∶2等，亦可根据用户的要求设计特殊比例的减压阀。

200 230公称通径DN（mm）尺寸（mm）C L D15 1/2" 80 5020 3/4" 80 5025 1" 90 5432 1 1/4" 100 6040 1 1/2" 110 6850 2" 120 80首页>>产品中心>>比例式减压阀一、产品[固定比例式减压阀]的详细资料：产品名称：固定比例式减压阀产品特点：本厂生产的比例式减压阀，外形美观，质量可靠，比例准确，工作平稳．既减动压也减静压。

vickers比例阀技术参数

vickers比例阀技术参数摘要：I.简介- 简述Vickers比例阀II.技术参数- 工作压力- 控制流量- 调节范围- 响应时间- 温度范围III.应用领域- 液压传动系统- 工业自动化- 工程机械- 汽车制造IV.结论- 总结Vickers比例阀技术参数正文：I.简介Vickers比例阀是一种常用的流量控制阀门，具有结构简单、操作方便、控制精度高等特点。

它主要用于控制流体的流量和压力，以满足各种工业领域的需求。

II.技术参数1.工作压力Vickers比例阀的工作压力范围较广，一般可达100至700 bar。

这使得它能够适应各种高压、高流量的工况。

2.控制流量Vickers比例阀的控制流量能力较强，流量调节范围可达到100:1，甚至更高。

这使得它能够满足不同工况下的流量控制需求。

3.调节范围Vickers比例阀的调节范围较广，一般可达0.2至100%。

这使得它能够实现精确的控制，以满足各种工况的要求。

4.响应时间Vickers比例阀的响应时间较快，一般不超过100毫秒。

这使得它能够迅速响应工况变化，提高系统的稳定性和可靠性。

5.温度范围Vickers比例阀的温度范围较广，一般可达-40至120摄氏度。

这使得它能够适应各种温度的工况，具有较强的环境适应性。

III.应用领域1.液压传动系统Vickers比例阀广泛应用于各类液压传动系统中，如工程机械、汽车制造等领域，用于控制流量、压力等参数，提高系统的性能。

2.工业自动化在工业自动化领域，Vickers比例阀可用于控制各种流体介质，如液压油、气压等，实现自动化生产过程中的流量、压力控制。

3.工程机械在工程机械领域，Vickers比例阀可用于控制液压系统，如挖掘机、装载机等，提高机械设备的操作性能和稳定性。

4.汽车制造在汽车制造领域，Vickers比例阀可用于控制刹车系统、转向系统等，提高汽车的安全性和驾驶性能。

IV.结论综上所述，Vickers比例阀具有优良的技术参数和广泛的应用领域。

VICKERS比例阀技术使用操作细节资料

vickers电磁换向阀技术参数

VICKERS电磁阀DG4V-3-2C-M-P7-H-7-52技术资料

丹福斯 Vickers KB比例阀概述说明书

维克斯（Vickers）双泵双梭型交流型油泵系列操作手册说明书

Vickers 压力阀 顺序阀、卸荷阀、背压阀、平衡阀和减压阀 说明书

EATON Vickers 比例阀 说明书

VICKERS比例阀安装使用技术资料

比例方向控制阀比例阀-Vickers伊顿威格士

威格士vickers比例阀工作原理

方向控制值：VICKERS 方向控制阀门操作阀门 DG4S -01 型号说明书

比例阀使用说明范文

CG系列美国威格士平衡阀的产品内容及工作原理

vickers换向阀技术参数

vickers换向阀技术参数

威纳比例阀安全操作及保养规程

vickers比例阀

vickers比例阀技术参数

Vickers 压力阀顺序阀、卸荷阀、背压阀、平衡阀和减压阀说明书

EATON Vickers 比例阀说明书